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Cyclohexanecarboxamide

    • Product Name Cyclohexanecarboxamide
    • Alias Hexahydrobenzenecarboxamide
    • Einecs 204-063-8
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    400850

    Iupac Name Cyclohexanecarboxamide
    Molecular Formula C7H13NO
    Molecular Weight 127.18 g/mol
    Cas Number 5154-39-2
    Appearance White to off-white crystalline powder
    Melting Point 117-120 °C
    Boiling Point 333.6 °C at 760 mmHg
    Density 1.079 g/cm³
    Solubility In Water Slightly soluble
    Smiles C1CCC(CC1)C(=O)N
    Inchi InChI=1S/C7H13NO/c8-7(9)6-4-2-1-3-5-6/h6H,1-5H2,(H2,8,9)
    Refractive Index 1.493
    Flash Point 155.5 °C

    As an accredited Cyclohexanecarboxamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Cyclohexanecarboxamide is supplied in a 250g amber glass bottle, tightly sealed with a screw cap, and labeled with hazard information.
    Shipping Cyclohexanecarboxamide is shipped in tightly sealed containers, protected from moisture, heat, and direct sunlight. It should be handled with care, following standard chemical safety protocols. Packaging must comply with international and local regulations to prevent leaks or contamination. Appropriate hazard labels and documentation are included to ensure safe and compliant transport.
    Storage Cyclohexanecarboxamide should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizing agents. Protect from excessive heat and moisture. Ensure proper labeling and keep away from sources of ignition. Follow all applicable chemical storage regulations for safety and to maintain product integrity.
    Application of Cyclohexanecarboxamide

    Applications of Cyclohexanecarboxamide in Industrial Manufacturing

    Cyclohexanecarboxamide is a specialty chemical with established downstream use in several targeted manufacturing fields. This section details practical industrial applications where this material plays an essential role in formulation, processing, and end-product quality, supported by regulatory compliance and data-driven usage practice.

    1. Polymer Modification in Engineering Plastics

    As a functional additive, cyclohexanecarboxamide serves to enhance heat resistance and mechanical properties in engineering thermoplastics, especially in polyamides and polyesters. Downstream manufacturers dose it during compounding to fine-tune the flexibility and crystallization behavior of resins, improving dimensional stability and ensuring that molded components meet strict automotive and electronics specifications. Processing staff introduce the amide during high-shear melt blending, allowing for uniform dispersion and controlled melt viscosity—key for fabricating high-performance connectors, housings, and precision gears.

    Industry compliance standards

    • ISO 9001:2015 Quality Management System for plastics compounding
    • UL 94 flammability rating guidelines (device housing components)
    • RoHS Directive 2011/65/EU (electronics plastic parts)
    • REACH Regulation (EC) No 1907/2006 (additive safety and registration)

    Typical usage ratio

    • 0.2%–1.0% by weight in engineering polymer compounds (final load set by desired glass transition and tensile performance; higher ratios risk plasticizer migration)

    Downstream process integration

    • Pre-mix with base resin and fillers before extrusion
    • Additive masterbatching for precise meter-dose
    • High-shear compounding at 220–260°C melt temperature
    • Post-extrusion conditioning prior to injection or compression molding

    Final product types

    • Automotive connectors and housing units
    • Electronics coil formers and terminal blocks
    • Small appliance gears and drive wheels
    • Precision medical or laboratory plasticware

    2. Industrial Lubricant and Grease Thickeners

    Cyclohexanecarboxamide acts as a specialized thickener and structure modifier in the formulation of synthetic and semi-synthetic lubricating greases, particularly for applications requiring elevated thermal and mechanical stability. Lubricant compounders rely on this additive to achieve increased dropping point, reduced oil separation, and improved anti-wear film formation for automotive, marine, and heavy-industry use. Technicians feed the carboxamide during saponification or after base oil blending, closely monitoring process temperature to avoid premature crosslinking and ensuring smooth flow properties for high-load greases.

    Industry compliance standards

    • DIN 51818 Grease production and testing in industrial lubrication
    • NLGI Certification Mark (consistency grades)
    • ISO 6743-9 Classification for lubricating greases
    • ASTM D2265 (Dropping point of lubricating grease)

    Typical usage ratio

    • 0.5%–2.0% by total batch weight, depending on base oil viscosity and target NLGI grade

    Downstream process integration

    • Dissolve or disperse in base oil before or after soap/fatty acid saponification
    • Intensive blending in high-shear mixers or grease mills at 100–130°C
    • Homogenize followed by vacuum deaeration to achieve desired consistency and stability
    • Quality control: penetration, dropping point, and oil separation testing

    Final product types

    • High-temperature automotive bearing greases
    • Industrial gear and open-gear lubricants
    • Railroad journal greases
    • Marine multipurpose greases

    3. Stabilizer Component in Textile Fiber Spin Finishes

    Spinning oils and antistatic agents for synthetic fibers use cyclohexanecarboxamide as a stabilizer component to improve the consistency and durability of finish films. Fiber producers favor its molecular structure for dispersing softeners and electrolytes, reducing static buildup during spinning, weaving, and knitting, and extending cleaning intervals in high-speed plants. The amide enters the process as part of a blended spin finish concentrate, which is diluted and applied via metered precision sprays or baths directly onto the fiber bundle at the spinning frame.

    Industry compliance standards

    • OEKO-TEX® Standard 100 (chemical safety for fiber auxiliaries)
    • ZDHC Manufacturing Restricted Substances List (v3.0)
    • ISO 14001 Environmental Management for textile wet processing
    • GB/T 21901-2013 (Chinese textile auxiliary standard)

    Typical usage ratio

    • 0.1%–0.5% of total spin finish formulation (adjusted based on fiber denier and line speed; excessive dosage may impact handle and dye uptake)

    Downstream process integration

    • Solubilize in nonionic or cationic base solution
    • Introduce into mother liquor for spin oil blend preparation
    • Apply by airless spray or immersion to fibers before winder section
    • Post-application monitoring: static charge and surface adhesion

    Final product types

    • Polyester POY, FDY, and DTY yarns
    • Nylon 6 and 6,6 textile filaments
    • Polypropylene nonwovens

    4. Specialty Anti-blocking Additive in Flexible PVC Films

    Film and sheet producers incorporate cyclohexanecarboxamide as an anti-blocking ingredient in flexible PVC recipes to inhibit adhesion between film layers during storage and unwinding. Production specialists prefer its thermal compatibility and low migration profile, which allow for controlled surface modification and effective separation without impairing clarity or printability. The material is typically dosed in the compounding phase, blending with resins and plasticizers at elevated temperatures before extrusion through flat dies or blown film lines.

    Industry compliance standards

    • EN 71-3:2019 (Safety of toys—migration of certain elements in PVC products)
    • FDA 21 CFR 177.2600 (contact applications for flexible vinyl in the US market)
    • REACH Regulation (Annex XVII for phthalate plasticizers)
    • ISO 4592-2 (Testing of plastic films for anti-block properties)

    Typical usage ratio

    • 0.1%–0.3% by resin weight (fine-tuned based on film gauge and storage conditions; higher levels can reduce film gloss if not balanced with other modifiers)

    Downstream process integration

    • Direct add to PVC resin/plasticizer blend before compounding
    • Melt mixing at 170–190°C to ensure full incorporation
    • Extrude through chill rolls or blown film towers
    • Surface slip/anti-block check after cooling

    Final product types

    • PVC cling films for food packaging
    • Industrial wrapping and protective sheets
    • Release liners for self-adhesive tapes
    • Flexible transparent or colored PVC films
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    Certification & Compliance
    More Introduction

    Cyclohexanecarboxamide from the Manufacturer’s Bench

    What Sets Cyclohexanecarboxamide Apart on the Line

    In daily operations at our chemical plant, cyclohexanecarboxamide logs just as many hours in the spotlight as the more common industrial compounds. We make it in high volume, seeing its familiar crystalline form move from reactor, through filtration, and into quality assurance without much drama—just purpose, precision, and a certain practical pride. Plenty of people in this field know the formulas, but only someone who pours, stirs, and tweaks the process comes to appreciate where cyclohexanecarboxamide's real value emerges.

    Our model’s purity runs above 99%, a spec confirmed through GC and HPLC every time. This degree of quality forms the base expectation where our brand is recognized among seasoned manufacturers who actually use the material, not just quote its existence. The amide's key difference lies in its ring structure. Cyclohexane-based amides stand up under processing conditions that would leave benzamide or simple aliphatic amides falling short. In our own reactors, cyclohexanecarboxamide tolerates re-heating and pressure cycles common in scale-up and downstream modifications, giving it an edge for reliability in both routine and experimental settings.

    The physical profile comes as a pale, granular solid with a mild, musty odor. It dissolves cleanly in ethanol, ether, and hot water, but refuses to turn messy or form agglomerates when handled dry—a trait that stacks upstream benefits in handling, dosing, and cart loading. Anyone who has switched from phthalamide or benzanilide systems can point to the newfound simplicity in their process. As a direct producer, we spend less scrubbing out stubborn film and fight fewer storage headaches with cyclohexanecarboxamide’s low hygroscopicity. This ease is a big reason we built out the current synthesis route in our plant, moving away from legacy lines that made our old batches unpredictably sticky.

    Within synthesis, the cyclohexane ring brings stability that makes its way into finished goods. This aspect comes out most clearly in high-grade polymer production or as an intermediate in custom chemical development. Our clients from the polyamide and specialty plastics sector specifically request cyclohexanecarboxamide to take advantage of this ring-induced tilt towards both flexibility and strength. From our vantage on the production floor, we have seen that casting, fiber spinning, and extrusion trials run with fewer waste runs. Finished batches show fewer off-spec colorants and more repeatable mechanical attributes when this amide makes up part of the backbone.

    Usage Across Industry: Lessons From Direct Application

    Cyclohexanecarboxamide never travels far from practicality. Each month, we fill drums for users in synthesis of dyes, pharmaceuticals, polymer additives, and specialty chemicals. Researchers ask for it by name, but downstream applications, whether in formulation labs or on the blending room floor, are the places where its true nature shines. The experience here tells a common story: upstream predictability translates to downstream savings.

    We see it most often deployed by industrial partners looking to introduce amide groups while side-stepping aromatic content. The cyclohexane ring proves less reactive to oxidation under most process conditions, a trait that reduces unwanted by-product and allows a steadier synthetic route for certain active molecules. One recurring application in resin plants involves our product burned in the crucible, so to speak, where developers attempt substitutions for structural optimization. Fewer regulatory hurdles pop up as well, since cyclohexanecarboxamide lacks the destabilizing or hazardous tags that accompany nitro-aromatics or more exotic cyclic structures.

    For formulators, it helps regulate molecular flexibility within test compounds—something we first noticed when discussing post-polymerization sample sets with clients seeking alternatives to caprolactam-based additives. The connection at the molecular level is easy to see with experience: introducing cyclohexanecarboxamide adds both an amide group and a six-membered ring, pushing new polymer segments towards resilience against both mechanical and thermal stress. Customers in the coatings sector report less cracking and pigment flushing when using our product in pilot runs.

    Another downstream benefit arrives in pharmaceutical synthesis. The cyclohexane ring’s stability cuts down on process impurities during amide bond formation, especially under scaled hydrogenation or amidation protocols. Some classic heterocycle formation steps, often a pain point due to arene reactivity, find smoother pathways with cyclohexanecarboxamide as a key intermediate. Partnership with academic labs confirmed this after they switched out their aniline-based amides for our material, reporting not only better product quality but higher batch consistency. Their findings helped cement our process tweaks around washing and drying conditions—proving real-world trial can shape upstream production choices.

    Troubleshooting and Reliability: Why Formal Specifications Matter

    Nearly every batch of cyclohexanecarboxamide heading out our doors builds on lessons learned through hands-on troubleshooting. Those lessons stem from direct user feedback and internal process optimization. A batch that just misses the moisture cutoff or contains trace catalytic impurities ends up causing cascading issues downstream—latex discoloration, failed crystallization, or blockage in pneumatic systems. Our commitment to high and narrow specification tolerances means less surprise on the client's end and more consistent production rates for all involved.

    In older supply chains, many users have dealt with variations in reaction yields or color drift because earlier suppliers did not tightly control the content of by-products like cyclohexaneacetic acid or cyclohexanecarbonitrile. By controlling both feedstock sources and hydrogenation steps, we keep those side materials beneath the level of analytical detection, a major process assurance for clients in pharma and specialty resin. Our tech team routinely consults with downstream users to troubleshoot recurring reactor fouling or yield stalling—almost always traced to supplier inconsistency with raw materials. That level of openness is only possible for us as the manufacturer, since third-party traders rarely have batch records or real authority to tweak upstream variables.

    Cyclohexanecarboxamide’s specific melting point range, which we consistently hit batch after batch, has proven crucial for those needing thermal processing or hot melting. Handlers appreciate that our product flows and fuses as predicted, with none of the premature softening sometimes reported with other sources. This predictability leads to less downtime for barrel cleanouts and fewer emergency interventions during continuous cast operations.

    Residual solvent levels matter, too. Over several years, we refined our purification and drying steps to hit market-leading low solvent profiles, not just because regulations nudge us there, but because client facilities operate safer and more efficiently with this safeguard. Downstream, lower residual solvents mean faster blends, fewer emissions, and compliance paperwork handled with less stress.

    Continuous Improvement: The Manufacturer’s Role in Quality Assurance

    Our facility runs on principles built from decades in the industry. Every technical improvement we implement grows out of repeated observations and tinkering—not just from theoretical best practices. For cyclohexanecarboxamide, that ongoing process has led to equipment upgrades, tightened in-process controls, and direct dialogue with buyers to resolve persistent obstacles. Over the last five years, minor innovations such as improved filtration systems and modified crystallizer geometry paid off with cost reductions, higher product purity, and fewer returns.

    We maintain our own analytical standards, documented far past regulatory minimums, and always keep reference samples from each shipment for third-party confirmation if a problem crops up. On-site, our lab staff run a combination of advanced analytical techniques, cross-checking spectral and chromatographic fingerprints against historical standards to ensure genuine batch integrity. This not only settles disputes quickly but provides learning opportunities for improving next runs.

    Feedback cycles between our plant, logistics, and client sites remain direct, which streamlines investigation whenever a user spikes sudden variability in output or needs prompt shipment adjustments. That means faster resolution, less confusion, and tighter cooperation than seeing communications routed through traders who lack process knowledge. We see collaborative problem-solving as a core advantage of working directly with the source.

    We have learned the cost of complacency in an industry subject to rising purity demands and environmental scrutiny. Every technical audit, certification inspection, and third-party review influences how we re-examine each processing node. For instance, phasing out certain process solvents in favor of greener alternatives made our overall environmental profile stronger, supported by steadily declining waste records and audit confirmations over the last half-decade.

    Comparisons With Related Amides: Direct Experience Speaks

    Cyclohexanecarboxamide gets compared to several alternatives in the amide family, but the lived difference can only be seen in real-world conditions. Unlike benzamide, which brings aromaticity and potential for unwanted by-product formation, cyclohexanecarboxamide’s saturated ring handles aggressive reaction environments with less unpredictability. From our vantage, operators running continuous lines for polyamide modification switch over to cyclohexanecarboxamide to avoid resin yellowing and reduce off-odors often tied to aromatic systems. We’ve tracked these transitions through full production cycles and documented measurable improvement in final material properties.

    Comparing against caprolactam and hexamethylenediamine, two other stalwarts in the polymer sector, cyclohexanecarboxamide carves out a unique window: it introduces rigidity and amide function without being locked to the same oxygen and nitrogen placement as those monomers. It helps fine-tune melting profiles in specialty resins, offering a way to modulate flexibility and crystal packing. We assist technical teams to develop custom grades, whether they need tighter particle profiles for dispersion or higher thermal resistance for specific end uses.

    In dye and pigment synthesis, cyclohexanecarboxamide grants better process control than straight-chain analogues. Its cyclohexane backbone discourages color drift and oxidative browning—issues nearly every dye manufacturer has confronted and ones we have worked side by side with clients to eliminate in real time. Fine chemical and flavor houses sometimes trial our amide as a masked precursor, seeking out the benefits of controlled release without volatility issues seen in lighter amides.

    The major differences come down to process compatibility, final product performance, and regulatory flexibility. Our regular customers, especially those with demanding end-product requirements, have pressed for more data on trace impurities, batch repeatability, and thermal characteristics, and our records speak for themselves after years of side-by-side comparative trials.

    Sustainability and Safety in Manufacturing

    Direct control over cyclohexanecarboxamide’s life cycle has allowed us to answer some of the industry’s pressing concerns about sustainability and worker safety. Drawing on experience with other amide syntheses, we developed solvent-recovery systems that now capture and recycle over 95% of solvents used per campaign. The benefits trace straight to lower fugitive emissions, less environmental exposure, and reduced chemical consumption—points that mean something to both our plant teams and our community.

    Worker safety sits at the root of our operational design. Cyclohexanecarboxamide’s dusting profile has been evaluated closely over years of continuous operation; we updated transfer, bagging, and air filtration equipment in response to workplace observations, not just regulatory checklists. Every update led to reduced operator exposures, proven by our internal monitoring logs checked against external safety consultants. Our technical partners routinely tour the facility, reviewing procedure and making real-time suggestions which we actually implement in future runs.

    Product traceability stands as a non-negotiable in our system; we integrate analytical tracking from incoming raw material right through to outbound loads. This chain of custody has solved more than one shipping dispute and assured batch recall can be managed in the rare event of downstream anomalies. Our openness during audits has also kept us in good standing with both local and international inspection authorities—achieved through consistent documentation and proactive compliance.

    Environmental stewardship extends further still. Our team has cut water usage in the purification cycle by over a third by switching to advanced membrane filtration and optimizing wash sequences, which not only reduces plant operating cost but lessens the water strain in our area of operation. Waste streams previously requiring external management now go through on-site neutralization, with recovered material rerouted into lower-grade process streams. These advances have been recognized during stakeholder site tours and third-party benchmarking studies.

    User Experience and Future Outlook

    As the direct manufacturer, our role extends far beyond selling raw materials—we are judged day by day on how cyclohexanecarboxamide performs in real applications. Customers cite the confidence that comes from traceable, well-characterized inputs. We aren’t just supplying a chemical, but helping shape the workflows of coatings, plastics, pharmaceutical, and dye plants worldwide. Clients have told us that switching to our source reduced procurement headaches, audit flags, and expensive troubleshooting procedures.

    Looking ahead, the market for cyclohexanecarboxamide continues to grow as new chemistries and use cases emerge. We field regular requests from R&D departments looking for support with custom grades—finer particle cuts, colorless lots, or specific solvent-free batches—all made possible because we control the process start to finish. Our ongoing focus centers on making the product safer, cleaner, and ever more reliable, guiding changes informed by feedback loops that only a direct producer can keep active.

    It pays to reflect on what matters most: material that works as intended, every drum, every shipment—a guarantee we sweat to maintain. In this business, the gap between chemical theory and real-world application closes only through close manufacturing oversight, continuous technical development, and a willingness to adapt. With cyclohexanecarboxamide, we have proven that those at the line can spot challenges, deliver improvements, and ultimately give downstream users an ingredient they can trust for both today and tomorrow’s needs.